Stable Limit Theorems for Empirical Processes under Conditional Neighborhood Dependence
Ji Hyung Lee, Kyungchul Song

TL;DR
This paper develops a new framework called conditional neighborhood dependence (CND) to model complex dependencies among large networks of random variables, and proves stable limit theorems for sums and empirical processes under this dependence.
Contribution
It introduces the CND concept, broadening the modeling of dependence in networks, and establishes stable limit theorems for sums and empirical processes with CND.
Findings
Proves a stable central limit theorem for sums of CND variables.
Establishes a Donsker-type stable convergence result for empirical processes with CND.
CND includes models like dependency graphs and certain Markov random fields.
Abstract
This paper introduces a new concept of stochastic dependence among many random variables which we call conditional neighborhood dependence (CND). Suppose that there are a set of random variables and a set of sigma algebras where both sets are indexed by the same set endowed with a neighborhood system. When the set of random variables satisfies CND, any two non-adjacent sets of random variables are conditionally independent given sigma algebras having indices in one of the two sets' neighborhood. Random variables with CND include those with conditional dependency graphs and a class of Markov random fields with a global Markov property. The CND property is useful for modeling cross-sectional dependence governed by a complex, large network. This paper provides two main results. The first result is a stable central limit theorem for a sum of random variables with CND. The second result is a…
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Taxonomy
TopicsStatistical Methods and Inference · Bayesian Modeling and Causal Inference · Markov Chains and Monte Carlo Methods
